Microsoft Technology Licensing, LLC

Pedro Urbina Escos

Emanuel Shalev

Michael Ebstyne

Yuri Pekelny

Jonathan C Hanzelka

Alex A Kipman

Kamran Rajabi Zargahi

Stephen Michelotti

Jonathan Chi Hang Chan

Ishani Chakraborty

Di Wang

Thomas M Soemo

Dimitrios Lymberopoulos

Lu Yuan

Muhammad Zeeshan Zia

Harpreet Singh Sawhney

Trebor Lee Connell

Mark Flick

Amol Ashok Ambardekar

Ning Xu

Gavin Jancke

Sheng Kai Tang

Andrey Konin

William Douglas Guyman

Dimitrios Lymperopoulos

Vibhav Vineet

Bilha-Catherine W Githinji

Vicente A Rivera

Michael John Ebstyne

A computer device includes a processor configured to simulate a virtual environment based on a set of virtual environment parameters, and perform ray tracing to render a view of the simulated virtual environment. The ray tracing includes generating a plurality of rays for one or more pixels of the rendered view of the simulated virtual environment. The processor is further configured to determine sub-pixel data for each of the plurality of rays based on intersections between the plurality of rays and the simulated virtual environment, and store the determined sub-pixel data for each of the plurality of rays in an image file.

Sub-pixel data simulation system

A method for virtual object pose rendering includes receiving a digital image of a real-world object in a real-world environment. An imaged pose of the real-world object is estimated based at least in part on a neural radiance model encoding 3D (three-dimensional) spatial data for the real-world object, the neural radiance model derived from a plurality of previously captured digital images of the real-world object. A view of a virtual object corresponding to the real-world object is rendered based at least in part on the neural radiance model, such that the virtual object has a virtual pose consistent with the imaged pose of the real-world object in the digital image.

Virtual pose rendering using neural radiance model

A synthetic world interface may be used to model digital environments, sensors, and motions for the evaluation, development, and improvement of localization algorithms. A synthetic data cloud service with a library of sensor primitives, motion generators, and environments with procedural and game-like capabilities, facilitates engineering design for a manufactural solution that has localization capabilities. In some embodiments, a sensor platform simulator operates with a motion orchestrator, an environment orchestrator, an experiment generator, and an experiment runner to test various candidate hardware configurations and localization algorithms in a virtual environment, advantageously speeding development and reducing cost. Thus, examples disclosed herein may relate to virtual reality (VR) or mixed reality (MR) implementations.

Spatial localization design service

Training a multi-object tracking model includes: generating a plurality of training images based at least on scene generation information, each training image comprising a plurality of objects to be tracked; generating, for each training image, original simulated data based at least on the scene generation information, the original simulated data comprising tag data for a first object; locating, within the original simulated data, tag data for the first object, based on at least an anomaly alert (e.g., occlusion alert, proximity alert, motion alert) associated with the first object in the first training image; based at least on locating the tag data for the first object, modifying at least a portion of the tag data for the first object from the original simulated data, thereby generating preprocessed training data from the original simulated data; and training a multi-object tracking model with the preprocessed training data to produce a trained multi-object tracker.

Training multi-object tracking models using simulation

A synthetic world interface may be used to model digital environments, sensors, and motions for the evaluation, development, and improvement of computer vision and speech algorithms. A synthetic data cloud service with a library of sensor primitives, motion generators, and environments with procedural and game-like capabilities, facilitates engineering design for a manufactural solution that has computer vision and speech capabilities. In some embodiments, a sensor platform simulator operates with a motion orchestrator, an environment orchestrator, an experiment generator, and an experiment runner to test various candidate hardware configurations and computer vision and speech algorithms in a virtual environment, advantageously speeding development and reducing cost. Thus, examples disclosed herein may relate to virtual reality (VR) or mixed reality (MR) implementations.

Computer vision and speech algorithm design service

Various embodiments, methods and systems for implementing a distributed computing system crowdsourcing engine are provided. Initially, a source asset is received from a distributed synthetic data as a service (SDaaS) crowdsource interface. A crowdsource tag is received for the source asset via the distributed SDaaS crowdsource interface. Based in part on the crowdsource tag, the source asset is ingested. Ingesting the source asset comprises automatically computing values for asset-variation parameters of the source asset. The asset-variation parameters are programmable for machine-learning. A crowdsourced synthetic data asset comprising the values for asset-variation parameters is generated.

Distributed computing system with a crowdsourcing engine

Various embodiments, methods and systems for implementing a distributed computing system scene assembly engine are provided. Initially, a selection of a first synthetic data asset and a selection of a second synthetic data asset are received from a distributed synthetic data as a service (SDaaS) integrated development environment (IDE). A synthetic data asset is associated with asset-variation parameters and scene-variation parameters, the asset-variation parameters and scene-variation parameters are programmable for machine-learning. Values for generating a synthetic data scene are received. The values correspond to asset-variation parameters or scene-variation parameters. Based on the values, the synthetic data scene is generated using the first synthetic data asset and the second synthetic data asset.

Distributed computing system with a synthetic data as a service scene assembly engine

Systems and methods are disclosed for leveraging rendering engines to perform multi-spectral rendering by reusing the color channels for additional spectral bands. A digital asset represented by a three dimensional (3D) mesh and a material reference pointer may be rendered using a first material spectral band data set and additionally rendered using a second material spectral band data set, and the results combined to create a multi-spectral rendering. The multi-spectral rendering may then be used as part of a synthetics service or operation. By abstracting the material properties, a material translator is able to return a banded material data set from among a plurality of spectral band sets, and asset material information may advantageously be managed apart from managing each asset individually.

Multi-spectral rendering for synthetics

Various embodiments, methods and systems for implementing a distributed computing system feedback loop engine are provided. Initially, a training dataset report is accessed. The training dataset report identifies a synthetic data asset having values for asset-variation parameters. The synthetic data asset is associated with a frameset. Based on the training dataset report, the synthetic data asset with a synthetic data asset variation is updated. The frameset is updated using the updated synthetic data asset.

Distributed computing system with a synthetic data as a service feedback loop engine

An immersive feedback loop is disclosed for improving artificial intelligence (AI) applications used for virtual reality (VR) environments. Users may iteratively generate synthetic scene training data, train a neural network on the synthetic scene training data, generate synthetic scene evaluation data for an immersive VR experience, indicate additional training data needed to correct neural network errors indicated in the VR experience, and then generate and retrain on the additional training data, until the neural network reaches an acceptable performance level.

Immersive feedback loop for improving AI

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Seattle, WA, United States of America

Pedro Urbina Escos